Human Centered Design For Mining Equipment And New Technology

This book introduces Human-Centered Design (HCD) and outlines the benefits of the approach for mining equipment and new technology. It is a process that aims to make equipment and systems more usable and acceptable by focusing on the end user, their tasks, their work environment, or use context. This process requires that users and other stakeholders are involved throughout the design and development process of the equipment or system. To date, HCD has not been widely applied to the design, development, and deployment of mining equipment or new technology.

Machines increasingly pervade the mining industry, reducing manual labor and raising production. While the use of new technologies such as remote control, vision enhancement technologies, continuous haulage, and automated equipment has grown, so has the potential for new health and safety risks. Written by leading experts from Australia and North America, Human Factors for the Design, Operation, and Maintenance of Mining Equipment covers the impact of new mining technology on human work performance and safety. Ergonomics experts Tim John Horberry, Robin Burgess-Limerick, and Lisa J. Steiner draw on their personal experience to provide up-to-date research, case studies, and examples, making the book useful, accurate, informative, and easy to read. They set the scene with a general, yet fundamental review of human factors information related to equipment. They then examine the physical environment and the importance of key concerns such as vibration, noise, heat, and dust in maintaining and operating mining equipment. The authors expand their scope by examining wider organizational and task factors related to mining equipment, including the long-standing issues of operator fatigue and stress as well as newer concerns such as distraction and information overload. A synthesis of available human factors knowledge and research, the book describes human factors principles applied to mining equipment from a multidisciplinary perspective and combines it into one volume. The authors combine their in-the-trenches experience and academic expertise to present a treatment that balances breadth with depth. The book supplies a much-needed overview of the human element in the journey to optimal equipment design of mining equipment.

The mining industry has experienced important improvements with regard to its safety record and work environment. But there is still room for further improvement and the mining industry now faces the challenge of securing a future workforce: The current workforce is aging, and mining work increasingly requires a more qualified workforce. Designing Ergonomic, Safe, and Attractive Mining Workplaces seeks to give an understanding of what must be considered in the design of mining workplaces. By reviewing and discussing the historic and current development of the mining industry as well as problems related to the safety, ergonomics, and attractiveness of mining workplaces, it demonstrates that the challenges facing the mining industry often need to be solved on a case-to-case basis. The processes through which these issues are managed are of significant importance. To facilitate a proactive approach, the book covers the principles of systematic work environment management, together with examples of methods for risk management and work environment monitoring. It introduces a systematic and iterative design and planning method for the mining industry. This method acknowledges that all relevant stakeholders must be able to influence the design of ergonomic, safe, and attractive mining workplaces. Features Takes a holistic and sociotechnical approach to current and future problems of the mining industry, which normally are dealt with in isolation or through technology Reviews historic, current, and future issues in the mining industry with regards to workplace attractiveness, health, safety, mechanization, automation, and work organization Provides several examples of these issues and attempts to address them (successfully and unsuccessfully) Covers the principles of systematic work environment management together with examples of methods for risk management and work environment monitoring for pro-actively dealing with work environment issues Introduces a systematic and iterative design and planning method for the mining industry that aims to avoid problems of traditional planning approaches and increase stakeholder and employee participation

The first edition of Handbook of Human Factors and Ergonomics in Health Care and Patient Safety took the medical and ergonomics communities by storm with in-depth coverage of human factors and ergonomics research, concepts, theories, models, methods, and interventions and how they can be applied in health care. Other books focus on particular human factors and ergonomics issues such as human error or design of medical devices or a specific application such as emergency medicine. This book draws on both areas to provide a compendium of human factors and ergonomics issues relevant to health care and patient safety. The second edition takes a more practical approach with coverage of methods, interventions, and applications and a greater range of domains such as medication safety, surgery, anesthesia, and infection prevention. New topics include: work schedules error recovery telemedicine workflow analysis simulation health information technology development and design patient safety management Reflecting developments and advances in the five years since the first edition, the book explores medical technology and telemedicine and puts a special emphasis on the contributions of human factors and ergonomics to the improvement of patient safety and quality of care. In order to take patient safety to the next level, collaboration between human factors professionals and health care providers must occur. This book brings both groups closer to achieving that goal.

This textbook comprehensively covers the basic principles and most recent advances regarding visual displays, auditory and tactile displays and controls; psychophysics; cognitive processes; human-computer interaction, artificial intelligence and artificial life; stress and human performance; occupational accidents and prevention; human group dynamics and complex systems; and anthropometry, workspace and environmental design. The systems perspective emphasizes nonlinear dynamics for system performance changes and emergent behaviours of complex person-machine systems. This book- • Surveys principles of conventional and computer-based machine interaction. • Assesses the relative effectiveness of accident analysis and prevention strategies. • Highlights nonlinear dynamics for system performance changes. • Examines artificial intelligence and complex systems. • Investigates sources of cognitive workload and fatigue. The textbook will be a valuable resource for advanced undergraduates and graduate students in diverse fields including ergonomics, human factors, cognitive science, computer science, operations management, and psychology. The textbook brings together core principles of person-machine interaction, accident analysis and prevention strategies, risk analysis and resilience, artificial intelligence, group dynamics, and nonlinear dynamics for an enhanced understanding of complex person-machine systems.

The contributions for this book have been gathered over several years from conferences held in the series of Mechatronics and Machine Vision in Practice, the latest of which was held in Ankara, Turkey. The essential aspect is that they concern practical applications rather than the derivation of mere theory, though simulations and visualization are important components. The topics range from mining, with its heavy engineering, to the delicate machining of holes in the human skull or robots for surgery on human flesh. Mobile robots continue to be a hot topic, both from the need for navigation and for the task of stabilization of unmanned aerial vehicles. The swinging of a spray rig is damped, while machine vision is used for the control of heating in an asphalt-laying machine. Manipulators are featured, both for general tasks and in the form of grasping fingers. A robot arm is proposed for adding to the mobility scooter of the elderly. Can EEG signals be a means to control a robot? Can face recognition be achieved in varying illumination?"